The slowness complaints across these products share a structural cause: the applications are client-server or thin-client architectures that make a round-trip to the server for nearly every interaction — every page load, every dropdown population, every form submission. When the network is saturated, the server is under load from concurrent users, or the application is simply poorly optimised (one product reportedly requires a 32-bit OS to run at acceptable speed on modern hardware), the user just waits. There is no local fallback.

The vendors won't fix this at the architecture level because it would require rebuilding the application's data model to support local state and sync — a multi-year rewrite that doesn't add a single feature customers can point to in a renewal conversation. The buyers, airline IT departments, don't have the leverage to demand it because they're locked in by regulatory data requirements and training investment.

What a separate product can do is sit in front of the specific workflows that happen in high-volume, time-sensitive conditions — work order acknowledgement, task card sign-off, parts request initiation — and handle them locally with a sync queue. The technician does their work against a local cache that was pre-populated at shift start. Sign-offs and entries queue locally and flush to the MRO system when connectivity or server responsiveness recovers. The MRO system remains the system of record; this is purely a front-end acceleration layer for a defined subset of write operations.

This is a business because the underlying MRO systems are not going away — airlines have 10-15 year relationships with these vendors baked into their maintenance procedures and regulatory documentation. Every year the legacy system runs is another year the performance problem exists. The recurring cost to the airline is measurable in technician idle time, and the risk is in compressed maintenance windows where waiting a minute for a screen to load is genuinely operationally significant.

What to build

Build a tablet-native work order entry interface for a specific MRO system (starting with AMOS) that pre-caches the shift's assigned tasks at login, accepts sign-offs and status updates locally, and syncs completed entries to the MRO backend in the background, with a visible queue showing pending, synced, and failed submissions.

Where to start

Approach MRO providers (third-party maintenance companies, not airlines directly) who run AMOS and have already complained to their IT team about hangar WiFi causing slowdowns — they have both the pain and the internal authority to approve a tool that sits alongside their existing system without touching it.

The hard part

Writing back to legacy MRO systems requires either an official API (which older products often lack or restrict) or a brittle integration against a private endpoint — meaning your first integration is probably a negotiated data agreement with an airline's IT team rather than a clean public API call.

How it makes money

Per-technician monthly subscription billed to the MRO provider or airline IT department, with a setup fee covering the backend integration work for their specific MRO system version.

See the evidence. The complaints behind this idea, the products they came from, and similar ideas in Aviation MRO.

More ideas in Aviation MRO